A Smart Ultrasonic Actuator with Multidegree of Freedom for Autonomous Vehicle Guidance Industrial Applications
A piezoelectric ultrasonic actuator with multidegree of freedom for autonomous vehicle guidance industrial applications is presented in this paper. The actuator is aiming to increase the visual spotlight angle of digital visual data capture transducer. It consists of three main parts, the stator, rotor and housing unit. The stator is a piezoelectric ring made from S42 piezoelectric ceramics material, bonded to three electrodes made from a material that has a close Characteristics to the S42. The rotor is a ball made from stainless steel materials.
The actuator working principles is based on creating micro elliptical motions of surface points, generated by superposition of longitudinal and bending vibration modes, of oscillating structures. Transferring this motion from flexible ring transducer through the three electrodes, to the attached rotor, create 3D motions. The actuator Design, structures, working principles and finite element analysis are discussed in this paper.
A prototype of the actuator was fabricated and its characteristics measured. Experimental tests showed the ability of the developed prototype to provide multidegree of freedom with typical speed of movement equal to 35 rpm, a resolution of less than 5μm and maximum load of 3.5 Newton. These characteristics illustrated the potential of the developed smart actuator, to gear the spotlight angle of digital visual data capture transducers and possible improvement that such micro-actuator technology could bring to the autonomous vehicle guidance and machine vision industrial applications. Furthermore research are still undertaken to develop a universal control prototype, integrate the actuator with an infrared sensor, visual data capture digital transducers and obtain the trajectory of motion control algorithm.
Ramesh Jain, Rangachar Kasturi, Brian G. Schunck, Machine Vision, McGraw-Hill, Inc., ISBN 0-07-032018-7, 1995.
H. Golnabi, A. Asadpour, ‘Design and application of industrial machine vision systems’, Robotics and Computer-Integrated Manufacturing 23 (2007) 630–637. CrossRef
Dimitris Gorpas, Kostas Politopoulos, Dido Yova, ‘A binocular machine vision system for three-dimensional surface measurement of small objects’, Computerized Medical Imaging and Graphics 31 (2007) 625–637. CrossRef
SICK IVP, Machine Vision Introduction, Version 2.2, December 2006. VIEW
Chunsheng Zhao, Ultrasonic motors: technologies and applications, Science Press, New York, 2011. CrossRef
S. Lin, “An improved cymbal transducer with combined piezoelectric ceramic ring and metal ring”, Elservier, China, sensors and actuators A: Physical Vol: 16 p-226-276, 2010.
D. Engleke, B. Oehme, and J. Strackeljan, A Novel Drive Option for Piezoelectric Ultrasonic Transducers, Hindawi Publishing Corp, Modelling and Simulation in Engineering, Vol 2011, ID 910876, p1-6, 2011.
J.S. Park, S.T. Kim, J.W. Kim, Ultrasonic linear motor using L1-B4 mode and its analysis, Jpn. J. Appl. Phys. 44 (1A) 412–416, 2005. CrossRef
Yu. G. Martynenko, I.V. Merkuryev, and V.V. Podalkov. Control of Nonlinear Vibrations of Vibrating Ring Microgyroscope. Mechanics of Solids. Vol.43, No. 3, p379-390, 2008. CrossRef
J. Jiamei, and Z. Chunsheng, A novel Traveling Wave Ultrasonic Motor Using a Bar Shaped Transducer, J.Wuham University of Technology, 2008.
C.H. Yun, T. Ishii, K. Nakamura, S. Ueha, K. Akashi, A high power ultrasonic linear motor using a longitudinal and bending hybrid bolt-clamped Langevin type transducer, Jpn. J. Appl. Phys. 40 3773–3776, 2001. CrossRef
F. Zhang, W.S. Chen, J.K. Liu, Z.S. Wang, Bidirectional linear ultrasonic motor using longitudinal vibrating transducers, IEEE Trans. Ultrason. Ferroelectr. Freq. Control. 52 (1) 134–138, 2005. CrossRef
S.J. Shi, W.S. Chen, A bidirectional standing wave ultrasonic linear motor based on Langevin bending transducer, Ferroelectronics 350 102–110, 2008.
M. Shafik, J. A. G. Knight, H. Abdalla, (2001), “Development of a new generation of electrical discharge texturing system using an ultrasonic motor”, 13th International Symposium for Electromachining, ISEM, Spain, May 9th to 11th, , 2001.
M. Shafik, J. A. G. Knight, H Abdalla, “An investigation into electro discharge machining system applications using an ultrasonic motor”, Proceeding of ESM'-2002 International Conference, Belfast, August 28th to 31st, 2002.
M. Shafik & J. A. G. Knight, “Computer simulation and modelling of an ultrasonic motor using a single flexural vibrating bar”, Proceeding of ESM'2002 International Conference, Germany, June 3rd to 5th, 2002.
M. Shafik, ‘Computer Aided Analysis and Design of a New Servo Control Feed Drive for EDM using Piezoelectric USM’, PhD Thesis, De Montfort University, Leicester, UK, 2003.
M. Shafik, E. M. Shehab and H. S. Abdalla, ‘A Linear Piezoelectric Ultrasonic Motor Using a Single Flexural Vibrating Transducer for Electro Discharge System Industrial Applications’, Int. J. Adv. Manuf. Technol. 45:287–299, 2009. CrossRef
M. Shafik & S. Fekkai, (2012), ‘A 3D Smart Actuator for Robotic Eyes Industrial Applications Using a Flexural Vibration Ring Transducer’, 2012 International Conference on Innovations in Engineering and Technology for Sustainable Development (IETSD), India, 3-5 September, 2012.
M. Shafik, et al, (2012), “Computer Simulation and Modelling of Standing Wave Piezoelectric Ultrasonic Motor Using Flexural Transducer, ASME 2012 International Mechanical Engineering Congress and Exposition, Houston, TX, USA.
M. Shafik, et al, (2012), “Computer Simulation and Modelling of 3D Travelling Wave Piezoelectric Ultrasonic Motor Using a Flexural Vibration Ring Transducer, 2012 International Conference on Mechatronics and Computational Mechanics, Dubai, December 20 – 21, 2012.
M. Shafik, et al, (2012), “Computer Simulation and Modelling of Standing Wave Piezoelectric Ultrasonic Motor Using a Single Flexural Vibration Transducer’, 2012 International Conference on Mechatronics and Computational Mechanics, Dubai, December 20 – 21, 2012.
He SY et al. “Standing wave bi-directional linearly moving ultrasonic motor”, IEEE trans. On Ultrasonics ferr. and freq. Control, vol. 45, no. 5, 1998.
J. Satonobu, and J. R. Friend. Travelling Wave Excitation in a Flexural Vibration Ring by Using a Torsional-Flexural Composite Transducer, IEEE Tran on Ultrasonics, Ferroelectrics and Frequency Control, Vol. 48, No. 4, 2001.
Tobias H., Jorg Wallaschek, “Survey of the present state of the art of piezoelectric linear motors”, Ultrasonics, 38, 37-40, 2000. CrossRef
Woo Seok Hwang and Hyun Chul Park. “Finite element modelling piezoelectric sensors and actuators”, AIAAJ, Vol. 31, No. 5, 1993. CrossRef
Yingxiang Liu, Weishan Chen, Junkao Liu, Shengjun Shi, ‘A cylindrical standing wave ultrasonic motor using bending vibration transducer’, Ultrasonics 51 527–531, 2011. CrossRef
S. Ben-Yaakov, et al, “A resonant driver for a piezoelectric motor”, Power Conversion and intelligent Motor Conference, June, pp. 173-178, 1999.
Ueha S. and Tomikawa Y. “Ultrasonic motors theory and applications”, Clarendon press, Oxford, London, UK, 1993.
Jacob Tal., “Servomotors take piezoceramic transducers for a ride”, Machine Design (ISSN 0024-9114), Penton Media, Inc., USA, 1999.
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